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output.c
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output.c
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/**************************************************************************
* output.c *
* *
* Written by Rory Barnes *
* *
* This file contains subroutines related to output, both the log and *
* forward or backward integration results. *
* *
**************************************************************************/
#include <stdio.h>
#include <stdlib.h>
#include <math.h>
#include <assert.h>
#include <ctype.h>
#include <string.h>
#include "eqtide.h"
#include "output.h"
void InitializeOutput(OUTPUT *output) {
int i;
for (i=0;i<NUMOUT;i++) {
output->cParam[i] = InitializeString(OPTLEN);
sprintf(output->cParam[i],"null");
output->iNeg[i] = 0;
output->dConvert[i] = 1;
}
/*
* Age
*/
sprintf(output->cParam[OUT_AGE],"Age");
sprintf(output->cDescr[OUT_AGE],"System Age");
output->iNeg[OUT_AGE] = 0;
sprintf(output->cNeg[OUT_AGE],"Gyr");
output->dConvert[OUT_AGE] = 1./(YEARSEC*1e9);
/*
* E
*/
sprintf(output->cParam[OUT_EQSPINPERCONT],"EqSpinPerCont");
sprintf(output->cDescr[OUT_EQSPINPERCONT],"CPL2 Continuous Equilibrium Spin Period");
output->iNeg[OUT_EQSPINPERCONT] = 0;
sprintf(output->cNeg[OUT_EQSPINPERCONT],"days");
output->dConvert[OUT_EQSPINPERCONT] = 1./DAYSEC;
sprintf(output->cParam[OUT_EQSPINRATECONT],"EqSpinRateCont");
sprintf(output->cDescr[OUT_EQSPINRATECONT],"CPL2 Continuous Equilibrium Spin Rate");
output->iNeg[OUT_EQSPINRATECONT] = 0;
sprintf(output->cNeg[OUT_EQSPINRATECONT],"/day");
output->dConvert[OUT_EQSPINRATECONT] = DAYSEC;
sprintf(output->cParam[OUT_EQSPINPERDISCRETE],"EqSpinPerDiscrete");
sprintf(output->cDescr[OUT_EQSPINPERDISCRETE],"CPL2 Discrete Equilibrium Spin Period");
output->iNeg[OUT_EQSPINPERDISCRETE] = 0;
sprintf(output->cNeg[OUT_EQSPINPERDISCRETE],"days");
output->dConvert[OUT_EQSPINPERDISCRETE] = 1./DAYSEC;
sprintf(output->cParam[OUT_EQSPINRATEDISCRETE],"EqSpinRateDiscrete");
sprintf(output->cDescr[OUT_EQSPINRATEDISCRETE],"CPL2 Discrete Equilibrium Spin Rate");
output->iNeg[OUT_EQSPINRATEDISCRETE] = 0;
sprintf(output->cNeg[OUT_EQSPINRATEDISCRETE],"/day");
output->dConvert[OUT_EQSPINRATEDISCRETE] = DAYSEC;
/*
* ORBIT
*/
sprintf(output->cParam[OUT_ORBANGMOM],"OrbAngMom");
sprintf(output->cDescr[OUT_ORBANGMOM],"Orbital Angular Momentum");
sprintf(output->cParam[OUT_ORBDADT],"DaDt");
sprintf(output->cDescr[OUT_ORBDADT],"Total da/dt");
output->iNeg[OUT_ORBDADT] = 0;
sprintf(output->cNeg[OUT_ORBDADT],"AU/Gyr");
output->dConvert[OUT_ORBDADT] = YEARSEC*1e9/AUCM;
sprintf(output->cParam[OUT_ORBDEDT],"DeDt");
sprintf(output->cDescr[OUT_ORBDEDT],"Total de/dt");
output->iNeg[OUT_ORBDEDT] = 0;
sprintf(output->cNeg[OUT_ORBDEDT],"/Gyr");
output->dConvert[OUT_ORBDEDT] = YEARSEC*1e9;
sprintf(output->cParam[OUT_ORBDMMDT],"DMeanMotionDt");
sprintf(output->cDescr[OUT_ORBDMMDT],"Total dMeanMotion/dt");
sprintf(output->cParam[OUT_ORBDPERDT],"DPerDt");
sprintf(output->cDescr[OUT_ORBDPERDT],"Total dOrbPer/dt");
output->iNeg[OUT_ORBDPERDT] = 0;
sprintf(output->cNeg[OUT_ORBDPERDT],"days/Gyr");
output->dConvert[OUT_ORBDPERDT] = YEARSEC*1e9/DAYSEC;
sprintf(output->cParam[OUT_ORBECC],"Eccentricity");
sprintf(output->cDescr[OUT_ORBECC],"Orbital Eccentricity");
sprintf(output->cParam[OUT_ORBEN],"OrbEnergy");
sprintf(output->cDescr[OUT_ORBEN],"Orbital Energy");
output->iNeg[OUT_ORBEN] = 0;
sprintf(output->cNeg[OUT_ORBEN],"ergs");
sprintf(output->cParam[OUT_ORBMEANMOTION],"MeanMotion");
sprintf(output->cDescr[OUT_ORBMEANMOTION],"Orbital Mean Motion");
output->iNeg[OUT_ORBMEANMOTION] = 0;
sprintf(output->cNeg[OUT_ORBMEANMOTION],"/day");
output->dConvert[OUT_ORBMEANMOTION] = DAYSEC;
sprintf(output->cParam[OUT_ORBPER],"OrbPeriod");
sprintf(output->cDescr[OUT_ORBPER],"Orbital Period");
output->iNeg[OUT_ORBPER] = 0;
sprintf(output->cNeg[OUT_ORBPER],"days");
output->dConvert[OUT_ORBPER] = 1./DAYSEC;
sprintf(output->cParam[OUT_ORBSEMI],"SemiMajorAxis");
sprintf(output->cDescr[OUT_ORBSEMI],"Semi-major Axis");
output->iNeg[OUT_ORBSEMI] = 0;
sprintf(output->cNeg[OUT_ORBSEMI],"AU");
output->dConvert[OUT_ORBSEMI] = 1./AUCM;
/*
* PRIMARY
*/
sprintf(output->cParam[OUT_PRIANGMOM],"PriAngMom");
sprintf(output->cDescr[OUT_PRIANGMOM],"Primary's Rotational Angular Momentum");
sprintf(output->cParam[OUT_PRIDADT],"PriDaDt");
sprintf(output->cDescr[OUT_PRIDADT],"Primary's Contribution to da/dt");
output->iNeg[OUT_PRIDADT] = 0;
sprintf(output->cNeg[OUT_PRIDADT],"AU/Gyr");
output->dConvert[OUT_PRIDADT] = YEARSEC*1e9/AUCM;
sprintf(output->cParam[OUT_PRIDEDT],"PriDeDt");
sprintf(output->cDescr[OUT_PRIDEDT],"Primary's Contribution to de/dt");
output->iNeg[OUT_PRIDEDT] = 0;
sprintf(output->cNeg[OUT_PRIDEDT],"/Gyr");
output->dConvert[OUT_PRIDEDT] = YEARSEC*1e9;
sprintf(output->cParam[OUT_PRIDOBLDT],"PriDoblDt");
sprintf(output->cDescr[OUT_PRIDOBLDT],"Time Rate of Change of Primary's Obliquity");
output->iNeg[OUT_PRIDOBLDT] = 0;
sprintf(output->cNeg[OUT_PRIDOBLDT],"deg/Gyr");
output->dConvert[OUT_PRIDOBLDT] = YEARSEC*1e9/DEGRAD;
sprintf(output->cParam[OUT_PRIDPERDT],"PriDperDt");
sprintf(output->cDescr[OUT_PRIDPERDT],"Time Rate of Change of Primary's Rotation Period");
output->iNeg[OUT_PRIDPERDT] = 0;
sprintf(output->cNeg[OUT_PRIDPERDT],"days/Myr");
output->dConvert[OUT_PRIDPERDT] = DAYSEC/(YEARSEC*1e6);
sprintf(output->cParam[OUT_PRIDSPINDT],"PriDSpinDt");
sprintf(output->cDescr[OUT_PRIDSPINDT],"Time Rate of Change of Primary's Rotation Rate");
sprintf(output->cParam[OUT_PRIEQSPINPER],"PriEqSpinPer");
sprintf(output->cDescr[OUT_PRIEQSPINPER],"Primary's Equilibrium Spin Period");
output->iNeg[OUT_PRIEQSPINPER] = 0;
sprintf(output->cNeg[OUT_PRIEQSPINPER],"days");
output->dConvert[OUT_PRIEQSPINPER] = 1./DAYSEC;
sprintf(output->cParam[OUT_PRIEQSPINRATE],"PriEqSpinRate");
sprintf(output->cDescr[OUT_PRIEQSPINRATE],"Primary's Equilibrium Rotation Rate");
output->iNeg[OUT_PRIEQSPINRATE] = 0;
sprintf(output->cNeg[OUT_PRIEQSPINRATE],"/day");
output->dConvert[OUT_PRIEQSPINRATE] = DAYSEC;
sprintf(output->cParam[OUT_PRIGAMMAROT],"PriGammaRot");
sprintf(output->cDescr[OUT_PRIGAMMAROT],"Primary's Gamma_Rotation");
sprintf(output->cParam[OUT_PRIGAMMAORB],"PriGammaOrb");
sprintf(output->cDescr[OUT_PRIGAMMAORB],"Primary's Gamma_Orbital");
sprintf(output->cParam[OUT_PRIHEAT],"PriHeat");
sprintf(output->cDescr[OUT_PRIHEAT],"Primary's Total Internal Heat");
output->iNeg[OUT_PRIHEAT] = 0;
sprintf(output->cNeg[OUT_PRIHEAT],"TW");
output->dConvert[OUT_PRIHEAT] = 1e-19;
sprintf(output->cParam[OUT_PRIOBL],"PriObliquity");
sprintf(output->cDescr[OUT_PRIOBL],"Primary's Obliquity");
sprintf(output->cParam[OUT_PRIROTEN],"PriRotEnergy");
sprintf(output->cDescr[OUT_PRIROTEN],"Primary's Rotational Energy");
output->iNeg[OUT_PRIROTEN] = 0;
sprintf(output->cNeg[OUT_PRIROTEN],"ergs");
sprintf(output->cParam[OUT_PRISPINPER],"PriPer");
sprintf(output->cDescr[OUT_PRISPINPER],"Primary's Rotational Period");
output->iNeg[OUT_PRISPINPER] = 0;
sprintf(output->cNeg[OUT_PRISPINPER],"days");
output->dConvert[OUT_PRISPINPER] = 1./DAYSEC;
sprintf(output->cParam[OUT_PRISPINRATE],"PriSpinRate");
sprintf(output->cDescr[OUT_PRISPINRATE],"Primary's Rotational Angular Frequency");
output->iNeg[OUT_PRISPINRATE] = 0;
sprintf(output->cNeg[OUT_PRISPINRATE],"/day");
output->dConvert[OUT_PRISPINRATE] = DAYSEC;
sprintf(output->cParam[OUT_PRISURFFLUX],"PriSurfFlux");
sprintf(output->cDescr[OUT_PRISURFFLUX],"Primary's Surface Heat Flux");
output->iNeg[OUT_PRISURFFLUX] = 0;
sprintf(output->cNeg[OUT_PRISURFFLUX],"W/m^2");
output->dConvert[OUT_PRISURFFLUX] = 1e-3;
sprintf(output->cParam[OUT_PRITIDEHEAT],"PriTidePower");
sprintf(output->cDescr[OUT_PRITIDEHEAT],"Primary's Tidal Power");
output->iNeg[OUT_PRITIDEHEAT] = 0;
sprintf(output->cNeg[OUT_PRITIDEHEAT],"TW");
output->dConvert[OUT_PRITIDEHEAT] = 1e-19;
sprintf(output->cParam[OUT_PRIVROT],"PriRotVel");
sprintf(output->cDescr[OUT_PRIVROT],"Primary's Rotational Velocity");
output->iNeg[OUT_PRIVROT] = 0;
sprintf(output->cNeg[OUT_PRIVROT],"km/s");
output->dConvert[OUT_PRIVROT] = 1e-5;
/*
* SECONDARY
*/
sprintf(output->cParam[OUT_SECANGMOM],"SecAngMom");
sprintf(output->cDescr[OUT_SECANGMOM],"Secondary's Angular Momentum");
sprintf(output->cParam[OUT_SECDADT],"SecDaDt");
sprintf(output->cDescr[OUT_SECDADT],"Secondary's Contribution to da/dt");
output->iNeg[OUT_SECDADT] = 0;
sprintf(output->cNeg[OUT_SECDADT],"AU/Gyr");
output->dConvert[OUT_SECDADT] = YEARSEC*1e9/AUCM;
sprintf(output->cParam[OUT_SECDEDT],"SecDeDt");
sprintf(output->cDescr[OUT_SECDEDT],"Secondary's Contribution to de/dt");
output->iNeg[OUT_SECDEDT] = 0;
sprintf(output->cNeg[OUT_SECDEDT],"/Gyr");
output->dConvert[OUT_SECDEDT] = YEARSEC*1e9;
sprintf(output->cParam[OUT_SECDOBLDT],"SecDoblDt");
sprintf(output->cDescr[OUT_SECDOBLDT],"Time Rate of Change of Secondary's Obliquity");
output->iNeg[OUT_SECDOBLDT] = 0;
sprintf(output->cNeg[OUT_SECDOBLDT],"deg/Gyr");
output->dConvert[OUT_SECDOBLDT] = YEARSEC*1e9/DEGRAD;
sprintf(output->cParam[OUT_SECDPERDT],"SecDperDt");
sprintf(output->cDescr[OUT_SECDPERDT],"Time Rate of Change of Secondary's Rotation Period");
output->iNeg[OUT_SECDPERDT] = 0;
sprintf(output->cNeg[OUT_SECDPERDT],"days/Gyr");
output->dConvert[OUT_SECDPERDT] = YEARSEC*1e9/DAYSEC;
sprintf(output->cParam[OUT_SECDSPINDT],"SecDspinDt");
sprintf(output->cDescr[OUT_SECDSPINDT],"Time Rate of Change of Secondary's Rotation Rate");
sprintf(output->cParam[OUT_SECEQSPINPER],"SecEqSpinPer");
sprintf(output->cDescr[OUT_SECEQSPINPER],"Secondary's Equilibrium Spin Period");
output->iNeg[OUT_SECEQSPINPER] = 0;
sprintf(output->cNeg[OUT_SECEQSPINPER],"days");
output->dConvert[OUT_SECEQSPINPER] = 1./DAYSEC;
sprintf(output->cParam[OUT_SECEQSPINRATE],"SecEqSpinRate");
sprintf(output->cDescr[OUT_SECEQSPINRATE],"Secondary's Equilibrium Rotation Rate");
output->iNeg[OUT_SECEQSPINRATE] = 0;
sprintf(output->cNeg[OUT_SECEQSPINRATE],"/day");
output->dConvert[OUT_SECEQSPINRATE] = DAYSEC;
sprintf(output->cParam[OUT_SECEQSURFFLUX],"SecEqSurfFlux");
sprintf(output->cDescr[OUT_SECEQSURFFLUX],"Secondary's Surface Flux in Equilibrium Rotation");
output->iNeg[OUT_SECEQSURFFLUX] = 0;
sprintf(output->cNeg[OUT_SECEQSURFFLUX],"W/m^2");
output->dConvert[OUT_SECEQSURFFLUX] = 1e-3;
sprintf(output->cParam[OUT_SECGAMMAROT],"SecGammaRot");
sprintf(output->cDescr[OUT_SECGAMMAROT],"Secondary's Gamma_Rotation");
sprintf(output->cParam[OUT_SECGAMMAORB],"SecGammaOrb");
sprintf(output->cDescr[OUT_SECGAMMAORB],"Secondary's Gamma_Orbital");
sprintf(output->cParam[OUT_SECHEAT],"SecPower");
sprintf(output->cDescr[OUT_SECHEAT],"Secondary's Power");
output->iNeg[OUT_SECHEAT] = 0;
sprintf(output->cNeg[OUT_SECHEAT],"TW");
output->dConvert[OUT_SECHEAT] = 1e-19;
sprintf(output->cParam[OUT_SECOBL],"SecObliquity");
sprintf(output->cDescr[OUT_SECOBL],"Secondary's Obliquity");
sprintf(output->cParam[OUT_SECQ],"SecQ");
sprintf(output->cDescr[OUT_SECQ],"Secondary's Tidal Q");
output->iNeg[OUT_SECQ] = 0;
sprintf(output->cNeg[OUT_SECQ],"none");
output->dConvert[OUT_SECQ] = 1;
sprintf(output->cParam[OUT_SECROTEN],"SecRotEnergy");
sprintf(output->cDescr[OUT_SECROTEN],"Secondary's Rotational Energy");
output->iNeg[OUT_SECROTEN] = 0;
sprintf(output->cNeg[OUT_SECROTEN],"ergs");
sprintf(output->cParam[OUT_SECSPINPER],"SecPer");
sprintf(output->cDescr[OUT_SECSPINPER],"Secondary's Rotational Period");
output->iNeg[OUT_SECSPINPER] = 0;
sprintf(output->cNeg[OUT_SECSPINPER],"days");
output->dConvert[OUT_SECSPINPER] = 1./DAYSEC;
sprintf(output->cParam[OUT_SECSPINRATE],"SecSpinRate");
sprintf(output->cDescr[OUT_SECSPINRATE],"Secondary's Rotational Angular Frequency");
output->iNeg[OUT_SECSPINRATE] = 0;
sprintf(output->cNeg[OUT_SECSPINRATE],"/day");
output->dConvert[OUT_SECSPINRATE] = DAYSEC;
sprintf(output->cParam[OUT_SECSURFFLUX],"SecSurfFlux");
sprintf(output->cDescr[OUT_SECSURFFLUX],"Secondary's Surface Heat Flux");
output->iNeg[OUT_SECSURFFLUX] = 0;
sprintf(output->cNeg[OUT_SECSURFFLUX],"W/m^2");
output->dConvert[OUT_SECSURFFLUX] = 1e-3;
sprintf(output->cParam[OUT_SECTIDELOCK],"SecTideLock");
sprintf(output->cDescr[OUT_SECTIDELOCK],"Secondary Tidally Locked?");
output->iNeg[OUT_SECTIDELOCK] = 0;
sprintf(output->cNeg[OUT_SECTIDELOCK],"0,1");
sprintf(output->cParam[OUT_SECVROT],"SecRotVel");
sprintf(output->cDescr[OUT_SECVROT],"Secondary's Rotational Velocity");
output->iNeg[OUT_SECVROT] = 0;
sprintf(output->cNeg[OUT_SECVROT],"km/s");
output->dConvert[OUT_SECVROT] = 1e-5;
/*
* INTEGRATION PARAMETERS
*/
sprintf(output->cParam[OUT_TIME],"Time");
sprintf(output->cDescr[OUT_TIME],"Simulation Time");
output->iNeg[OUT_TIME] = 0;
sprintf(output->cNeg[OUT_TIME],"Gyr");
output->dConvert[OUT_TIME] = 1./(YEARSEC*1e9);
sprintf(output->cParam[OUT_DT],"DeltaTime");
sprintf(output->cDescr[OUT_DT],"Average Timestep Over Last Output Interval");
output->iNeg[OUT_DT] = 0;
sprintf(output->cNeg[OUT_DT],"years");
output->dConvert[OUT_DT] = 1./YEARSEC;
sprintf(output->cParam[OUT_TOTANGMOM],"TotAngMom");
sprintf(output->cDescr[OUT_TOTANGMOM],"Total Angular Momentum");
sprintf(output->cParam[OUT_TOTEN],"TotEnergy");
sprintf(output->cDescr[OUT_TOTEN],"Total Energy");
output->iNeg[OUT_TOTEN] = 0;
sprintf(output->cNeg[OUT_TOTEN],"ergs");
/*
* TIMESCALES
*/
sprintf(output->cParam[OUT_TAUSEMI],"TauSemi");
sprintf(output->cDescr[OUT_TAUSEMI],"Timescale for Semi-major Axis Evolution (a/[da/dt])");
output->iNeg[OUT_TAUSEMI] = 0;
sprintf(output->cNeg[OUT_TAUSEMI],"years");
output->dConvert[OUT_TAUSEMI] = 1./YEARSEC;
sprintf(output->cParam[OUT_TAUECC],"TauEcc");
sprintf(output->cDescr[OUT_TAUECC],"Timescale for Eccentricity Evolution (e/[de/dt])");
output->iNeg[OUT_TAUECC] = 0;
sprintf(output->cNeg[OUT_TAUECC],"years");
output->dConvert[OUT_TAUECC] = 1./YEARSEC;
sprintf(output->cParam[OUT_TAUPRISPIN],"TauPriSpin");
sprintf(output->cDescr[OUT_TAUPRISPIN],"Timescale for Primary's Rotational Evolution");
output->iNeg[OUT_TAUPRISPIN] = 0;
sprintf(output->cNeg[OUT_TAUPRISPIN],"years");
output->dConvert[OUT_TAUPRISPIN] = 1./YEARSEC;
sprintf(output->cParam[OUT_TAUPRIOBL],"TauPriObl");
sprintf(output->cDescr[OUT_TAUPRIOBL],"Timescale for Primary's Obliquity Evolution");
output->iNeg[OUT_TAUPRIOBL] = 0;
sprintf(output->cNeg[OUT_TAUPRIOBL],"years");
output->dConvert[OUT_TAUPRIOBL] = 1./YEARSEC;
sprintf(output->cParam[OUT_TAUSECSPIN],"TauSecSpin");
sprintf(output->cDescr[OUT_TAUSECSPIN],"Timescale for Secondary's Rotational Evolution");
output->iNeg[OUT_TAUSECSPIN] = 0;
sprintf(output->cNeg[OUT_TAUSECSPIN],"years");
output->dConvert[OUT_TAUSECSPIN] = 1./YEARSEC;
sprintf(output->cParam[OUT_TAUSECOBL],"TauSecObl");
sprintf(output->cDescr[OUT_TAUSECOBL],"Timescale for Secondary's Obliquity Evolution");
output->iNeg[OUT_TAUSECOBL] = 0;
sprintf(output->cNeg[OUT_TAUSECOBL],"years");
output->dConvert[OUT_TAUSEMI] = 1./YEARSEC;
}
void WriteLog(PARAM param,PRIMARY pri,SECONDARY sec,OUTPUT output,FILES files,IO io,int iEnd) {
int i,j,k,foo; // foo is a placehold for EqSpinRate_CTL8
FILE *fp;
double tmp;
char cTime[16],cTmp[OPTLEN];
double *chi,*dTideHeat,*dTideSurfFlux;
double dEqHeatFlux[2],dEqSpinRate[2];
double *z,*f,dBeta; // CTL parameters
double *zprime;
int **epsilon; // CPL parameters
epsilon = malloc(2*sizeof(int*));
epsilon[0] = malloc(10*sizeof(int));
epsilon[1] = malloc(10*sizeof(int));
z = malloc(2*sizeof(double));
zprime = malloc(2*sizeof(double));
f = malloc(5*sizeof(double));
chi = malloc(2*sizeof(double));
dTideHeat = malloc(2*sizeof(double));
dTideSurfFlux = malloc(2*sizeof(double));
if (iEnd == 0) {
sprintf(cTime,"Input");
fp=fopen(files.cLog,"w");
} else if (iEnd == 1) {
sprintf(cTime,"Final");
fp=fopen(files.cLog,"a");
} else if (iEnd == -1) {
sprintf(cTime,"Initial");
fp=fopen(files.cLog,"a");
}
/*
* General Control
*/
if (!iEnd) {
/* System Name */
fprintf(fp,"System Name: %s\n",param.cSystemName);
/* Tidal Model */
fprintf(fp,"Tidal Model: ");
if (param.iTideModel == CPL)
fprintf(fp,"Constant-Phase-Lag\n");
else if (param.iTideModel == CTL)
fprintf(fp,"Constant-Time-Lag\n");
if (param.iTideModel == CPL)
fprintf(fp,"Use Discrete Rotation Rate Model: %d\n",param.bDiscreteRot);
/* Integration method */
fprintf(fp,"Integration Method: ");
if (param.iIntegration == EULER)
fprintf(fp,"Euler\n");
else if (param.iIntegration == RK4)
fprintf(fp,"4th order Runge-Kutta\n");
/* Verbosity */
fprintf(fp,"Verbosity Level: %d\n",io.iVerbose);
fprintf(fp,"\n--------- Input/Output Units ---------\n\n");
/* Mass Units */
fprintf(fp,"Mass Units: ");
if (param.iUnitMass == 0) {
fprintf(fp,"Grams\n");
} else if (param.iUnitMass == 1) {
fprintf(fp,"Kilograms\n");
} else if (param.iUnitMass == 2) {
fprintf(fp,"Solar\n");
} else if (param.iUnitMass == 3) {
fprintf(fp,"Earth\n");
} else if (param.iUnitMass == 4) {
fprintf(fp,"Jupiter\n");
} else if (param.iUnitMass == 5) {
fprintf(fp,"Saturn\n");
}
/* Length Units */
fprintf(fp,"Length Units: ");
if (param.iUnitLength == 0) {
fprintf(fp,"Centimeters\n");
} else if (param.iUnitLength == 1) {
fprintf(fp,"Meters\n");
} else if (param.iUnitLength == 2) {
fprintf(fp,"Kilometers\n");
} else if (param.iUnitLength == 3) {
fprintf(fp,"Solar\n");
} else if (param.iUnitLength == 4) {
fprintf(fp,"Earth\n");
} else if (param.iUnitLength == 5) {
fprintf(fp,"Jupiter\n");
} else if (param.iUnitLength == 6) {
fprintf(fp,"AU\n");
}
/* Time Units */
fprintf(fp,"Time Units: ");
if (param.iUnitTime == 0) {
fprintf(fp,"Seconds\n");
} else if (param.iUnitTime == 1) {
fprintf(fp,"Days\n");
} else if (param.iUnitTime == 2) {
fprintf(fp,"Years\n");
} else if (param.iUnitTime == 3) {
fprintf(fp,"Megayears\n");
} else if (param.iUnitTime == 4) {
fprintf(fp,"Gigayears\n");
}
/* Angle Units */
fprintf(fp,"Angle Units: ");
if (param.iUnitAngle == 0) {
fprintf(fp,"Radians\n");
} else if (param.iUnitAngle == 1) {
fprintf(fp,"Degrees\n");
}
fprintf(fp,"Minimum Value of ecc and obl: ");
fprintd(fp,param.dMinValue,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
/*
* Files
*/
fprintf(fp,"\n--------- Files ---------\n\n");
fprintf(fp,"Executable: %s\n",files.cExe);
fprintf(fp,"Input: %s\n",files.cIn);
if (param.bDoForward)
fprintf(fp,"Forward Output: %s\n",files.cFor);
if (param.bDoBackward)
fprintf(fp,"Backward Output: %s\n",files.cBack);
/*
* Integration Paramters
*/
if (param.bDoForward || param.bDoBackward) {
fprintf(fp,"---------- Integration(s) ----------\n\n");
fprintf(fp,"Use Variable Timestep: ");
if (param.bVarDt == 0) {
fprintf(fp,"No\n");
} else {
fprintf(fp,"Yes\n");
fprintf(fp,"Timestep Coefficient: ");
fprintd(fp,param.dTimestepCoeff,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
}
}
if (param.bDoForward) {
fprintf(fp,"\n--------- Forward Integration ---------\n\n");
fprintf(fp,"%s Time Step: ",cTime);
fprintd(fp,param.dForwTimeStep/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Stop Time: ");
fprintd(fp,param.dForwStopTime/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Output Interval: ");
fprintd(fp,param.dForwOutputTime/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"%s Minimum Semi-major Axis: ",cTime);
fprintd(fp,param.halt.dMinSemi/dLengthUnit(param.iUnitLength,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
}
if (param.bDoBackward) {
fprintf(fp,"\n--------- Backward Integration ---------\n\n");
fprintf(fp,"%s Time Step: ",cTime);
fprintd(fp,param.dBackTimeStep/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Stop Time: ");
fprintd(fp,param.dBackStopTime/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Output Time: ");
fprintd(fp,param.dBackOutputTime/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
}
/* Output Order */
if (param.bDoBackward || param.bDoForward) {
fprintf(fp,"Output Order: ");
for (i=0;i<param.iNumCols;i++) {
fprintf(fp,"%s",param.cOutputOrder[i]);
for (j=0;j<NUMOUT;j++) {
if (!strcmp(param.cOutputOrder[i],output.cParam[j])) {
if (output.iNeg[j])
fprintf(fp,"[%s]",output.cNeg[j]);
}
}
fprintf(fp," ");
}
}
fprintf(fp,"\n");
} /* iEnd */
/*
* Properties of Primary Body
*/
fprintf(fp,"\n--------- Primary Body ---------\n\n");
if (!iEnd) {
fprintf(fp,"Primary Mass: ");
fprintd(fp,pri.dMass/dMassUnit(param.iUnitMass,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Radius: ");
fprintd(fp,pri.dRadius/dLengthUnit(param.iUnitLength,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
if (param.iTideModel == CPL) {
fprintf(fp,"Primary Tidal Q: ");
fprintd(fp,pri.dQ,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
} else if (param.iTideModel == CTL) {
fprintf(fp,"Primary Time Lag: ");
fprintd(fp,pri.dTau/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
}
fprintf(fp,"\n");
fprintf(fp,"Primary Love Number k2: ");
fprintd(fp,pri.dK2,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
} /* iEnd */
fprintf(fp,"Primary %s Obliquity: ",cTime);
fprintd(fp,pri.dObliquity/dAngleUnit(param.iUnitAngle,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary %s Spin Period: ",cTime);
fprintd(fp,dFreqToPer(pri.dSpinRate)/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary %s Spin Frequency: ",cTime);
fprintd(fp,pri.dSpinRate*dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
if (!iEnd) {
fprintf(fp,"Primary Radius of Gyration: ");
fprintd(fp,pri.dRG,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
if (pri.iMassRad > 0) {
fprintf(fp,"Primary Mass-Radius Relationship: ");
if (pri.iMassRad == 1) {
fprintf(fp,"New Light On Dark Stars\n");
} else if (pri.iMassRad == 2) {
fprintf(fp,"Gorda, S.Y. & Svechnikov, M.A. 1999, Astronomy Reports, 43, 521-525.\n");
} else if (pri.iMassRad == 3) {
fprintf(fp,"Bayless, A.J. & Orosz, J.A. 2006, ApJ, 651, 1155-1165.\n");
} else if (pri.iMassRad == 4) {
fprintf(fp,"Sotin, C. et al. 2007, Icarus, 191, 337-351.\n");
} else if (pri.iMassRad == 5) {
fprintf(fp,"Baraffe, I. et al. 2015, A&A, 577, 42.\n");
}
}
} /* iEnd */
/*
* Properties of Secondary
*/
fprintf(fp,"\n--------- Secondary Body ---------\n\n");
if (!iEnd) {
fprintf(fp,"Secondary Mass: ");
fprintd(fp,sec.dMass/dMassUnit(param.iUnitMass,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Radius: ");
fprintd(fp,sec.dRadius/dLengthUnit(param.iUnitLength,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
if (param.iTideModel == CPL) {
fprintf(fp,"Secondary Tidal Q: ");
fprintd(fp,sec.dQ,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
} else if (param.iTideModel == CTL) {
fprintf(fp,"Secondary Time Lag: ");
fprintd(fp,sec.dTau/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
}
fprintf(fp,"Secondary Love Number k2: ");
fprintd(fp,sec.dK2,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Radius of Gyration: ");
fprintd(fp,sec.dRG,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
if (sec.iMassRad > 0) {
fprintf(fp,"Secondary Mass-Radius Relationship: ");
if (sec.iMassRad == 1) {
fprintf(fp,"New Light On Dark Stars\n");
} else if (sec.iMassRad == 2) {
fprintf(fp,"Gorda, S.Y. & Svechnikov, M.A. 1999, Astronomy Reports, 43, 521-525.\n");
} else if (sec.iMassRad == 3) {
fprintf(fp,"Bayless, A.J. & Orosz, J.A. 2006, ApJ, 651, 1155-1165.\n");
} else if (sec.iMassRad == 4) {
fprintf(fp,"Sotin, C. et al. 2007, Icarus, 191, 337-351.\n");
}
}
}
fprintf(fp,"Secondary %s Obliquity: ",cTime);
fprintd(fp,sec.dObliquity/dAngleUnit(param.iUnitAngle,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary %s Spin Period: ",cTime);
fprintd(fp,dFreqToPer(sec.dSpinRate)/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary %s Spin Frequency: ",cTime);
fprintd(fp,sec.dSpinRate*dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
tmp=2*atan(pri.dRadius/sec.dSemi);
if (param.iUnitAngle == 1)
tmp /= dAngleUnit(param.iUnitAngle,io.exit_units);
fprintf(fp,"%s Angular Size of Primary body: ",cTime);
fprintd(fp,tmp,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"\n-------------- Orbit ----------\n\n");
fprintf(fp,"%s Semi-major Axis: ",cTime);
fprintd(fp,sec.dSemi/dLengthUnit(param.iUnitLength,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"%s Orbital Mean Motion: ",cTime);
fprintd(fp,sec.dMeanMotion*dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"%s Orbital Period: ",cTime);
fprintd(fp,dFreqToPer(sec.dMeanMotion)/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"%s Eccentricity: ",cTime);
fprintd(fp,sec.dEcc,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
/*
* Tidal properties
*/
fprintf(fp,"\n--------- Tidal Effects ---------\n\n");
if (param.iTideModel == CPL) {
/* Constant-Phase-Lag, order 2 */
DerivsCPL(&pri,&sec,&io,zprime,chi,f,dBeta,epsilon,0,param.bDiscreteRot);
dEqSpinRate[0] = EqSpinRate_CPL2(sec.dMeanMotion,sec.dEcc,pri.dObliquity,param.bDiscreteRot);
dEqSpinRate[1] = EqSpinRate_CPL2(sec.dMeanMotion,sec.dEcc,sec.dObliquity,param.bDiscreteRot);
/* in Watts */
dTideHeat[0] = dTideHeat_CPL2(epsilon[0],zprime[0],sec.dEcc,sec.dMeanMotion,pri.dSpinRate,pri.dObliquity)/1e7;
dTideHeat[1] = dTideHeat_CPL2(epsilon[1],zprime[1],sec.dEcc,sec.dMeanMotion,sec.dSpinRate,sec.dObliquity)/1e7;
/* in W/m^2 */
dTideSurfFlux[0] = dTideHeat[0]/(4*PI*pri.dRadius*pri.dRadius)*1e4;
dTideSurfFlux[1] = dTideHeat[1]/(4*PI*sec.dRadius*sec.dRadius)*1e4;
/* in W/m^2 */
dEqHeatFlux[0] = dTideHeatEq_CPL2(zprime[0],sec.dEcc,pri.dObliquity,sec.dMeanMotion,param.bDiscreteRot)/(4*PI*pri.dRadius*pri.dRadius)/1e3;
dEqHeatFlux[1] = dTideHeatEq_CPL2(zprime[1],sec.dEcc,sec.dObliquity,sec.dMeanMotion,param.bDiscreteRot)/(4*PI*sec.dRadius*sec.dRadius)/1e3;
} else if (param.iTideModel == CTL) {
dBeta = AssignBeta(sec.dEcc);
DerivsCTL(&pri,&sec,&io,z,chi,f,dBeta,epsilon,0,param.bDiscreteRot);
dEqSpinRate[0] = EqSpinRate_CTL8(sec.dMeanMotion,sec.dEcc,pri.dObliquity,param.bDiscreteRot);
dEqSpinRate[1] = EqSpinRate_CTL8(sec.dMeanMotion,sec.dEcc,sec.dObliquity,param.bDiscreteRot);
/* in Watts */
dTideHeat[0]=dTideHeat_CTL8(z[0],f,dBeta,pri.dSpinRate,pri.dObliquity,sec.dMeanMotion)/1e7;
dTideHeat[1]=dTideHeat_CTL8(z[1],f,dBeta,sec.dSpinRate,sec.dObliquity,sec.dMeanMotion)/1e7;
/* in W/m^2 */
dTideSurfFlux[0]=dTideHeat[0]/(4*PI*pri.dRadius*pri.dRadius)*1e4;
dTideSurfFlux[1]=dTideHeat[1]/(4*PI*sec.dRadius*sec.dRadius)*1e4;
dEqHeatFlux[0] = dTideHeatEq_CTL8(z[0],f,dBeta,pri.dObliquity,sec.dMeanMotion)/(4*PI*pri.dRadius*pri.dRadius)/1e3;
dEqHeatFlux[1] = dTideHeatEq_CTL8(z[1],f,dBeta,sec.dObliquity,sec.dMeanMotion)/(4*PI*sec.dRadius*sec.dRadius)/1e3;
}
fprintf(fp,"da/dt: ");
fprintd(fp,sec.dDaDt*dTimeUnit(param.iUnitTime,io.exit_units)/dLengthUnit(param.iUnitLength,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"de/dt: ");
fprintd(fp,sec.dDeDt*dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
tmp = DOrbPerDt(pri.dMass,sec.dSemi,sec.dDaDt);
fprintf(fp,"dP/dt: ");
fprintd(fp,tmp,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"\n");
fprintf(fp,"Derivative of Primary's Spin Rate: ");
fprintd(fp,pri.dDomegaDt/param.iUnitTime,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary dObl/dt: ");
fprintd(fp,pri.dDobliquityDt*param.iUnitAngle/param.iUnitTime,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Equilibrium Rotation Rate: ");
fprintd(fp,dEqSpinRate[0]*dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Equilibrium Rotation Period: ");
fprintd(fp,dFreqToPer(dEqSpinRate[0])/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Tidal Heat [W]: ");
fprintd(fp,dTideHeat[0],io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Tidal Surface Flux [W/m^2]: ");
fprintd(fp,dTideSurfFlux[0],io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Equilibrium Tidal Surface Flux [W/m^2]: ");
fprintd(fp,dEqHeatFlux[0],io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"\n");
fprintf(fp,"Derivative of Secondary's Spin Rate: ");
fprintd(fp,sec.dDomegaDt,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary dObl/dt: ");
fprintd(fp,sec.dDobliquityDt*param.iUnitAngle/param.iUnitTime,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Equilibrium Rotation Rate: ");
fprintd(fp,dEqSpinRate[1]*dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Equilibrium Rotation Period: ");
fprintd(fp,dFreqToPer(dEqSpinRate[1])/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Tidal Heat [W]: ");
fprintd(fp,dTideHeat[1],io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Tidal Surface Flux [W/m^2]: ");
fprintd(fp,dTideSurfFlux[1],io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Equilibrium Tidal Surface Flux [W/m^2]: ");
fprintd(fp,dEqHeatFlux[1],io.iSciNot,io.iDigits);
fprintf(fp,"\n\n");
if (param.iTideModel == CPL) {
fprintf(fp,"Use Discrete Rotation States: %d\n",param.bDiscreteRot);
fprintf(fp,"Discrete Equilibrium Spin Period: ");
fprintd(fp,dFreqToPer(EqSpinRate_CPL2Discrete(sec.dMeanMotion,sec.dEcc))/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Continuous Equilibrium Spin Period: ");
fprintd(fp,dFreqToPer(EqSpinRate_CPL2Cont(sec.dMeanMotion,sec.dEcc))/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary epsilons: %d %d %d %d %d %d\n",epsilon[0][0],epsilon[0][1],epsilon[0][2],epsilon[0][5],epsilon[0][8],epsilon[0][9]);
fprintf(fp,"Primary Gamma_Rotation: ");
fprintd(fp,dGammaRot(sec.dEcc,pri.dObliquity,epsilon[0]),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Primary Gamma_Orbital: ");
fprintd(fp,dGammaOrb(sec.dEcc,pri.dObliquity,epsilon[0]),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary epsilons: %d %d %d %d %d %d\n",epsilon[1][0],epsilon[1][1],epsilon[1][2],epsilon[1][5],epsilon[1][8],epsilon[1][9]);
fprintf(fp,"Secondary Gamma_Rotation: ");
fprintd(fp,dGammaRot(sec.dEcc,sec.dObliquity,epsilon[1]),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary Gamma_Orbital: ");
fprintd(fp,dGammaOrb(sec.dEcc,sec.dObliquity,epsilon[1]),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
} else if (param.iTideModel == CTL) {
fprintf(fp,"Secondary's Equilibrium Rotation Period: ");
fprintd(fp,dFreqToPer(dEqSpinRate[1])/dTimeUnit(param.iUnitTime,io.exit_units),io.iSciNot,io.iDigits);
fprintf(fp,"\n");
}
fprintf(fp,"\n----------- Halt ---------\n\n");
/* Minimum Obliquity */
fprintf(fp,"Primary's Minimum Obliquity: ");
if (param.iUnitAngle == 0) {
tmp=param.halt.dMinPriObl;
} else {
tmp=param.halt.dMinPriObl/dAngleUnit(param.iUnitAngle,io.exit_units);
}
fprintd(fp,tmp,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
fprintf(fp,"Secondary's Minimum Obliquity: ");
if (param.iUnitAngle == 0) {
tmp=param.halt.dMinSecObl;
} else {
tmp=param.halt.dMinSecObl/dAngleUnit(param.iUnitAngle,io.exit_units);
}
fprintd(fp,tmp,io.iSciNot,io.iDigits);
fprintf(fp,"\n");
if (param.halt.bDblSync)
fprintf(fp,"HALT at double synchronous state.\n");
free(epsilon[1]);
free(epsilon[0]);
free(epsilon);
free(z);
free(zprime);
free(f);
free(chi);
free(dTideHeat);
free(dTideSurfFlux);
}
void Output(PARAM *param,PRIMARY *pri,SECONDARY *sec,OUTPUT *output,IO *io,double dTime,double dDt,FILE *fp) {
int j,k,ncol,n=0;
double col[NUMOUT];
int **epsilon,foo;
double *z,*chi,*f,beta;
ncol=0;
epsilon=malloc(2*sizeof(int*));
epsilon[0]=malloc(10*sizeof(int));
epsilon[1]=malloc(10*sizeof(int));
z=malloc(2*sizeof(double));
chi=malloc(2*sizeof(double));
f=malloc(5*sizeof(double));
if (param->iTideModel == CPL) {
AssignEpsilon(pri->dSpinRate,sec->dMeanMotion,epsilon[0]);
AssignEpsilon(sec->dSpinRate,sec->dMeanMotion,epsilon[1]);
AssignZprime(pri,sec,z);
} else if (param->iTideModel == CTL) {
f[0]=AssignF1(sec->dEcc);
f[1]=AssignF2(sec->dEcc);
f[2]=AssignF3(sec->dEcc);
f[3]=AssignF4(sec->dEcc);
f[4]=AssignF5(sec->dEcc);
beta=AssignBeta(sec->dEcc);
AssignZ(pri,sec,z);
}
AssignChi(pri,sec,chi);
/* Assign outputs */
for (j=0;j<NUMOUT;j++) {
if (!strcmp(param->cOutputOrder[j],output->cParam[OUT_EQSPINPERCONT])) {
col[j+n]=dFreqToPer(EqSpinRate_CPL2Cont(sec->dMeanMotion,sec->dEcc));
if (output->iNeg[OUT_EQSPINPERCONT])
col[j+n] *= output->dConvert[OUT_EQSPINPERCONT];
else
col[j+n] /= dTimeUnit(param->iUnitTime,io->exit_units);
ncol++;
}
if (!strcmp(param->cOutputOrder[j],output->cParam[OUT_EQSPINRATECONT])) {
col[j+n]=EqSpinRate_CPL2Cont(sec->dMeanMotion,sec->dEcc);
if (output->iNeg[OUT_EQSPINRATECONT])
col[j+n] *= output->dConvert[OUT_EQSPINRATECONT];
else
col[j+n] /= dTimeUnit(param->iUnitTime,io->exit_units);
ncol++;
}
if (!strcmp(param->cOutputOrder[j],output->cParam[OUT_EQSPINPERDISCRETE])) {
col[j+n]=dFreqToPer(EqSpinRate_CPL2Discrete(sec->dMeanMotion,sec->dEcc));
if (output->iNeg[OUT_EQSPINPERDISCRETE])
col[j+n] *= output->dConvert[OUT_EQSPINPERDISCRETE];
else
col[j+n] /= dTimeUnit(param->iUnitTime,io->exit_units);
ncol++;
}
if (!strcmp(param->cOutputOrder[j],output->cParam[OUT_EQSPINRATEDISCRETE])) {
col[j+n]=EqSpinRate_CPL2Discrete(sec->dMeanMotion,sec->dEcc);
if (output->iNeg[OUT_EQSPINRATEDISCRETE])
col[j+n] *= output->dConvert[OUT_EQSPINRATEDISCRETE];
else
col[j+n] /= dTimeUnit(param->iUnitTime,io->exit_units);
ncol++;
}
/*
* ORBIT
*/
/* Orbital Angular Momentum */
if (!strcmp(param->cOutputOrder[j],output->cParam[OUT_ORBANGMOM])) {
col[j+n]=dOrbAngMom(pri,sec);
ncol++;
}
/* Eccentricity */
if (!strcmp(param->cOutputOrder[j],output->cParam[OUT_ORBECC])) {
col[j+n]=sec->dEcc;
ncol++;